4iiii Innovations Inc.

Dynastream Innovations, Inc.

Garmin Corporation

Dyhastream Innovations Inc.

Kipling William Fyfe

James K Rooney

Keith Joseph Wakeham

Ken Fyfe

Billy Cheuk Wai Chan

Thomas Richard Williams

Gregory Charles Lund

Kenneth R Fyfe

Wade Bortz

David McNab

Darren Zacher

James G Hildebrandt

Kelly Fyfe

Ben Hilborn

Anna Miasnikova

Ken Fyte

Jacob P McEvoy

Ian Edward Andes

Tom Williams

Brandon Riches

Hamid Ebrahimi Kahaki

Keith Wakeham

Dave Mcnab

A solar wireless collector beacon (data hub) and associated method stores source data, received wirelessly from a data source, in a data buffer of the data hub. Sensor data is read from one or more onboard sensors of the data hub and stored as structural and/or environmental data in the data buffer. The environmental data is processed to determine an operating status of a vehicle being used with the data hub and an energy harvester of the vehicle is controlled to harvest energy from the vehicle based on the operating status. One or more of the operating status, the source data, and the environmental data is wirelessly transmitted from the data hub to an external device.

Solar wireless collector beacon (data hub)

An adhesive strain sensing pod includes at least one strain sensor, electronics for electrically sensing at least one strain signal from the at least one strain sensor, and a sensor adhesive for adhering the strain sensor to a surface of a structural element. The pod may have a protective case for protecting the strain sensor and the electronics and for transferring at least part of a force, pressing the pod against the surface, to press the strain sensor against the surface. The sensor adhesive may be a liquid adhesive contained in a fragile pouch that ruptures when the pod is forced against the surface, or may be a thermally activated adhesive film that is activated to bond the strain sensor to the surface. A protective film may protect the sensor adhesive prior to installation of the pod and is removed prior to installation of the pod on the surface.

Adhesive strain sensing pods with improved protection

A pumpjack monitor includes a processor and memory, a communicator for communicating with other monitors and a server, a sensor module having at least one strain gauge, and accelerometers for determining vibration and position of the monitor. Other sensors may be internal, including sensors for polished-rod rotation, and linked to the monitoring device wirelessly. Some embodiments serve as network hubs or bridges for other monitors. The server is configured to generate surface cards. A method for monitoring of pumpjacks uses the monitor to sense changes in pumpjack parameters, and communicate the changes to a server when changes exceed configurable thresholds. Some embodiments include determining location with GPS and/or relaying signals from other monitoring devices, smart power management, gas sensing, and relaying of signals from external wireless-equipped sensors such as valve position sensors, oil level sensors, and pressure sensors.

Oil-well pump instrumentation device and method

A crank measurement system includes four bend-sensing strain gauges located on one surface of a crank and oriented parallel to a neutral axis of the crank to sense bend strain induced in the crank. Two of the bend-sensing strain gauges are located above the neutral axis, and the other two bend-sensing strain gauges are located below the neutral axis. The system also includes two shear-sensing strain gauges located on the one surface and oriented to sense shear strain induced in the crank. The shear-sensing strain gauges are located on opposite sides of the neutral axis. The system may also include up to four axial-sensing strain gauges located on the one surface and oriented to sense axial strain induced in the crank. An electronics module receives strain data from the strain gauges, and determines from the strain data one or more of force, torque, and power applied to the crank.

Crank measurement system with improved strain gauge installation

Systems and methods provide remote control of product functionality and software kits allow firmware development of remote control of product functionality. The remote control may be time-based where the product functionality is based upon the expiration date and a current time. The remote control may be location-based where the product functionality is based upon the geographical location of the product. The remote control of the product functionality may be based upon proximity of the product to an authentication device.

Systems and methods for time based remote control of product functionality

An adhesively coupled power-meter measures one or more of force, torque, power, and velocity of a mechanical arm. The power meter includes a plate with a first surface prepared for adhesively coupling to the mechanical arm. At least one strain gauge is physically coupled with a second surface, opposite the first, of the plate and with an orientation corresponding to an orientation of the adhesively coupled power meter such that mechanical forces are transferred from mechanical arm to the at least one strain gauge when the plate is adhesively coupled to the mechanical arm. The power meter also includes electronics for receiving a signal from the at least one strain gauge and for determining one or more of force, torque, power and velocity from the signal, and a wireless transmitter for transmitting one or more of force, torque, power and velocity to a receiving device.

Adhesively coupled power-meter for measurement of force, torque, and power and associated methods

A system and method implement biometric sensing with sensor fusion. A first sensor is coupled with a user and is capable of sensing a first characteristic of the user. A second sensor is coupled with the user and is capable of sensing a second characteristic of the user. A memory stores software with machine readable instructions that when executed by a processor implement an algorithm to correct for motion artifacts included within the second characteristic based upon activity of the user determined from the first characteristic.

Systems and methods for biometric sensing with sensor fusion

A wireless sensor pod and associated method use a trigger event to pair with a master device. The wireless sensor pod includes an inertial sensor for detecting physical movement of the wireless sensor pod, a wireless transceiver, a processor communicatively coupled to the inertial sensor and the wireless transceiver, and a memory communicatively coupled with the processor and storing machine readable instructions. When the machine readable instructions are executed by the processor, they are capable of: detecting, using the inertial sensor, a first trigger event caused by the physical movement, and when the first trigger event is detected, transmitting, using the wireless transceiver, a communication to pair the wireless sensor pod with a master device.

Wireless sensor pod uses trigger events for pairing and testing

A head-mounted peripheral vision display and associated methods display information to a user without distraction. A plurality of light display elements are positioned within an area of peripheral vision of at least one eye of the user such that the information is imparted to the user without a need for repositioning or refocusing of the eye. The information may be determined from data received from one or more sensors and an illumination pattern is determined based upon the performance information. The light display elements are controlled to display the illumination pattern to the user.

Peripheral vision head-mounted display for imparting information to a user without distraction and associated methods

A shoe clip () includes two members () that attach together in positions above and beneath shoe laces (), to grip the shoe laces () between them and position the clip () on the shoe (). A first member () is shaped and sized to slide under one or more laces () of the shoe, without requiring unlacing thereof. A second member () rotatably attaches at one end to the first member and, after insertion of the first member () beneath the laces (), rotates to overlie the first member (). The members then fasten to one another at their free ends (), such that the members grip the laces () between them. The second member supports or is integral with a component that is to be attached to the shoe.

Shoe clip

A device comprised of at least a pair of accelerometers and a tilt sensor mounted in fixed relation to a datum plane defining surface (sole of a shoe) may be used for extracting kinematic variables including linear and rotational acceleration, velocity and position. These variables may be resolved into a selected direction thereby permitting both relative and absolute kinematic quantities to be determined. The acceleration is determined using a small cluster of two mutually perpendicular accelerometers mounted on a shoe. Angular orientation of the foot may be determined by double integration of the foot's angular acceleration (which requires a third accelerometer substantially parallel to one of the two orthogonal accelerometers). The two orthogonal accelerations are then resolved into a net horizontal acceleration or other selected direction which may be integrated to find the foot velocity in the selected direction. The average of the foot velocity corresponds to the subject's gait speed.

Growing community of inventors

Cochrane, Canada

Kipling William Fyfe